<p>(3a) Schematic of the entire plate. The microfluidic module itself was 25 × 50 mm, which was extended to 25 × 75 mm by the addition of a plastic adapter plate. (3b) Channel geometry within the microfluidic device. The image was taken using DIRI (Darkfield Internal Reflection Illumination). Port A is the inflow port, and port D is the outflow port. Ports B and C are closed during the experiment.</p
<p><b>A.</b> Standard perfusion chamber (RC-26GLP). Two holes were drilled at predetermined position...
Fig 2A depicts the housing of the 3D microfluidic platform. The black oval denotes the boundary of t...
<p>Bubbles trapped in the microfluidic channels are indicated by the yellow arrows. The blue arrows ...
<p>Expanded view (A) and a photo (B) of the microfluidic chip: 1, inlets of center channels; 2 and 3...
<p>(A) The microfluidic device. (B) The photomask used to fabricate the silicon mold. The ladder sha...
Microfluidic devices allow experimentation in smaller space using small amounts of liquid, resulting...
<p>(A) Exploded view of our PDMS microfluidic device. An infusion apparatus is connected to the sing...
<div><p>Microfluidics is used increasingly for engineering and biomedical applications due to recent...
<p>a) Cells in gel are loaded into the gel region via pipetting. The PDMS posts and surface tension ...
(A) The design of the microfluidic device with the central vascular chamber (yellow) and adjacent st...
<p>The microfluidic channel consisted of four branches (120x120μm), which allowed for four simultane...
<p>(A) Schematic representation of the microfluidic platform. Layout of the integrated microfluidic ...
<p>A. The schematic design shows the bifurcation angle and the widths of microchannels at differnet ...
<p>(A) Image of the microfluidic device mainly composed of a double-layer chip and an injection pump...
(A) Surface map of the steady pressure (Pa) distributions inside the microfluidic device. (B) Surfac...
<p><b>A.</b> Standard perfusion chamber (RC-26GLP). Two holes were drilled at predetermined position...
Fig 2A depicts the housing of the 3D microfluidic platform. The black oval denotes the boundary of t...
<p>Bubbles trapped in the microfluidic channels are indicated by the yellow arrows. The blue arrows ...
<p>Expanded view (A) and a photo (B) of the microfluidic chip: 1, inlets of center channels; 2 and 3...
<p>(A) The microfluidic device. (B) The photomask used to fabricate the silicon mold. The ladder sha...
Microfluidic devices allow experimentation in smaller space using small amounts of liquid, resulting...
<p>(A) Exploded view of our PDMS microfluidic device. An infusion apparatus is connected to the sing...
<div><p>Microfluidics is used increasingly for engineering and biomedical applications due to recent...
<p>a) Cells in gel are loaded into the gel region via pipetting. The PDMS posts and surface tension ...
(A) The design of the microfluidic device with the central vascular chamber (yellow) and adjacent st...
<p>The microfluidic channel consisted of four branches (120x120μm), which allowed for four simultane...
<p>(A) Schematic representation of the microfluidic platform. Layout of the integrated microfluidic ...
<p>A. The schematic design shows the bifurcation angle and the widths of microchannels at differnet ...
<p>(A) Image of the microfluidic device mainly composed of a double-layer chip and an injection pump...
(A) Surface map of the steady pressure (Pa) distributions inside the microfluidic device. (B) Surfac...
<p><b>A.</b> Standard perfusion chamber (RC-26GLP). Two holes were drilled at predetermined position...
Fig 2A depicts the housing of the 3D microfluidic platform. The black oval denotes the boundary of t...
<p>Bubbles trapped in the microfluidic channels are indicated by the yellow arrows. The blue arrows ...